Understanding Beth, the Particulate Mass Functional
Wayne R. Lundberg

TL;DR
This paper explores a geometric and combinatorial framework linking loop quantum gravity and string theory to explain particle masses, dark energy, and cyclic cosmology through a novel functional relationship called Beth.
Contribution
It introduces a new geometric and algebraic approach connecting quantum gravity, string theory, and cosmology, with a specific functional relationship for particulate mass involving extra dimensions.
Findings
Particulate mass is determined by a functional involving six extra dimensions.
A cyclic cosmological model is developed incorporating dark energy.
The framework models neutrinos and mini-inflation phenomena.
Abstract
A geometric relationship between loop quantum gravity and partitioned (triangulated) string theory is discussed. Combinatorial analysis reveals that three spatial and three curvature dimensions, intrinsic to the partitioned string, are necessary to replicate Standard Model particles and interactions. This analysis has established that particulate mass is determined by a functional relationship involving these six extra dimensions. The combinatorial analysis involves non-commutative 3D-matrix algebra which forms the mathematical underpinnings of Dirac notation. The functional relationship (symbolized by Beth) requires exponential, Randall-Sundrum, scaling to compute mass. Through the proper interpretation of complex gravity a cyclic cosmological model is developed. This formulation of cyclic cosmology inherently involves observed dark energy. Thus, a comprehensive theory is constructed…
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Taxonomy
TopicsCosmology and Gravitation Theories · Noncommutative and Quantum Gravity Theories · Black Holes and Theoretical Physics
